Welcome to the Industrial Automation website!

NameDescriptionContent
XING-Automation
E-mail  
Password  
  
Forgot password?
  Register
当前位置:
  • FOXBORO P0800DA Industrial Control Module
    ❤ Add to collection
  • FOXBORO P0800DA Industrial Control Module

    110V-380V
    5W-130W
    1A-30A
    1 year
    30
    United States, France, Japan, Viet Nam, Australia, Russia, Germany, Italy, Arabia

    FOXBORO P0800DA is an industrial grade high-performance multi-core control module, positioned as the "core computing and control node" of medium-sized distributed control systems (DCS). Its main functions include receiving real-time monitoring data uploaded by distributed I/O modules (such as FBM231, FBM232), performing logical operations, process optimization, and control decisions through the built-in control algorithm engine, generating precise control instructions and issuing them to the executing agencies, while achieving high-speed communication with other control modules, operator stations, and third-party intelligent devices in the system. This module is equipped with a dual core industrial grade high-performance processor, coupled with FOXBORO optimized real-time operating system (RTOS), with control response latency as low as microseconds, and can stably process thousands of signals and complex control loops. It adopts modular redundancy design, supports redundant configuration of key links such as power supply and communication, and with a perfect fault self diagnosis mechanism, can effectively reduce the risk of production interruption caused by sudden failures, providing core guarantee for the safe and stable production of medium-sized industrial equipment.

    • ¥37357.00
      ¥38956.00
    • Satisfaction:

      Sales: 0

      Review: 0

    Weight:2.560KG
    • Quantity:
    • (Inventory: 99999)
Description

FOXBORO P0800DA is an industrial grade high-performance multi-core control module, positioned as the "core computing and control node" of medium-sized distributed control systems (DCS). Its main functions include receiving real-time monitoring data uploaded by distributed I/O modules (such as FBM231, FBM232), performing logical operations, process optimization, and control decisions through the built-in control algorithm engine, generating precise control instructions and issuing them to the executing agencies, while achieving high-speed communication with other control modules, operator stations, and third-party intelligent devices in the system. This module is equipped with a dual core industrial grade high-performance processor, coupled with FOXBORO optimized real-time operating system (RTOS), with control response latency as low as microseconds, and can stably process thousands of signals and complex control loops. It adopts modular redundancy design, supports redundant configuration of key links such as power supply and communication, and with a perfect fault self diagnosis mechanism, can effectively reduce the risk of production interruption caused by sudden failures, providing core guarantee for the safe and stable production of medium-sized industrial equipment.




FOXBORO P0800DA Industrial Control Module

Basic overview of module

FOXBORO P0800DA is an industrial grade high-performance multi-core control module, positioned as the "core computing and control node" of medium-sized distributed control systems (DCS). Its main functions include receiving real-time monitoring data uploaded by distributed I/O modules (such as FBM231, FBM232), performing logical operations, process optimization, and control decisions through the built-in control algorithm engine, generating precise control instructions and issuing them to the executing agencies, while achieving high-speed communication with other control modules, operator stations, and third-party intelligent devices in the system. This module is equipped with a dual core industrial grade high-performance processor, coupled with FOXBORO optimized real-time operating system (RTOS), with control response latency as low as microseconds, and can stably process thousands of signals and complex control loops. It adopts modular redundancy design, supports redundant configuration of key links such as power supply and communication, and with a perfect fault self diagnosis mechanism, can effectively reduce the risk of production interruption caused by sudden failures, providing core guarantee for the safe and stable production of medium-sized industrial equipment.


Core functional characteristics

1. Dual core efficient computing and precise control capabilities

The P0800DA module is equipped with a dual core industrial grade Intel Core i3 processor with a main frequency of 1.6GHz, combined with 2GB of high-speed cache and 8GB of industrial grade flash memory (supporting expansion to 32GB), forming efficient parallel computing capabilities. It can simultaneously process 1800 analog signals and 3000 switch signals, and supports various mainstream control algorithms such as PID, cascade PID, ratio control, and logic interlocking. The module optimizes the algorithm scheduling mechanism for the control requirements of medium-sized industrial scenarios, reducing resource consumption while ensuring control accuracy. For example, in the temperature control scenario of chemical reaction vessels, temperature fluctuations can be accurately controlled within ± 0.4 ℃. In the pressure control of building materials kilns, the control error can be stabilized within 1%, fully meeting the process requirements of medium-sized production equipment.

2. Flexible redundant configuration and high reliability design

The module adopts the flexible design concept of "on-demand redundancy" and can be configured with different levels of redundancy according to the reliability requirements of the scenario: firstly, power redundancy, with dual independent 24V DC power input as standard, and the switching time between the main and backup power supplies is ≤ 8ms to ensure power continuity; The second is communication redundancy, equipped with 2 Gigabit Ethernet redundant interfaces and 1 redundant Node Bus interface, supporting industrial Ethernet ring network architecture to avoid signal interruption caused by a single communication link failure; The third option is optional module thermal redundancy, which achieves real-time synchronization of main and backup module data through a dedicated redundant bus, with a switching time of ≤ 30ms, meeting the continuous operation requirements of critical control circuits. The mean time between failures (MTBF) of the module is as high as 350000 hours, suitable for the reliability requirements of most medium-sized industrial scenarios.

3. Multi protocol compatibility and efficient communication capability

The module is equipped with a variety of industrial communication interfaces, including 2 Gigabit Ethernet interfaces, 2 RS485 interfaces, 1 PROFINET interface, and 1 redundant Node Bus interface, supporting multiple mainstream industrial communication protocols such as Modbus RTU/TCP, PROFINET, EtherNet/IP, FOXBORO Node Bus, OPC UA, etc. The Gigabit Ethernet interface supports adaptive rates of 100Mbps/1Gbps, ensuring high-speed data exchange with distributed I/O units and upper computer systems, with signal update cycles as low as 2ms. The support of OPC UA protocol enables standardized data docking with MES systems and production management platforms, facilitating centralized management and analysis of production data for enterprises. The module also supports PTP IEEE 1588 v2 time synchronization protocol, which can achieve millisecond level time synchronization between multiple modules, ensuring the collaborative accuracy of production processes.

4. Intelligent diagnosis and rapid fault location

The module is equipped with an intelligent diagnostic unit, which collects more than 20 key parameters such as processor load, memory usage, communication link status, power supply voltage, module temperature, etc. in real time to achieve real-time monitoring and early warning of faults. When a fault is detected, the operation and maintenance personnel can be notified through a triple mechanism: the module panel LED indicator light (red/yellow/green) displays an alarm locally, the relay output triggers an external sound and light alarm, and detailed fault information is uploaded to the upper computer through the communication interface (such as "RS485 interface 2 communication interruption" and "low main power supply voltage"), shortening the fault troubleshooting time from the traditional hourly level to less than 10 minutes and greatly improving operation and maintenance efficiency.

5. Convenient configuration and engineering application

The module supports visual programming through FOXBORO Control Builder EP configuration software, providing a general function block library and specialized templates for medium-sized industrial scenarios (such as reactor control templates and kiln control templates). Operations personnel can quickly build control circuits by dragging and dropping function blocks without writing complex underlying code. The software supports online modification, download, and debugging of control logic, combined with parameter batch import/export functions, greatly improving system configuration and debugging efficiency. For example, for a medium-sized chemical plant containing 20 P0800DA modules, configuration time can be reduced to half of traditional modules.

6. Industrial grade protection and environmental adaptability

For the complex environment of industrial sites, the module adopts a comprehensive protection design: at the hardware level, it is equipped with electromagnetic shielding metal shell (shielding efficiency ≥ 90dB), anti surge circuit (withstand ± 3kV voltage surge) and wide temperature components, which can effectively resist electromagnetic interference generated by frequency converters, motors and other equipment, and adapt to a wide temperature working range of -40 ℃~70 ℃; At the software level, CRC-32 data verification, program watchdog mechanism, and error retransmission function are used to ensure the integrity of data transmission and the stability of program operation. The module protection level reaches IP20 and supports centralized installation in 19 inch standard cabinets. It can operate stably for a long time in industrial sites with high temperature, high humidity, and high dust.


Key technical parameters

Core processor

Dual core Intel Core i3 industrial grade processor with a clock speed of 1.6GHz

storage capacity

2GB high-speed cache, 8GB flash memory (supports expansion up to 32GB)

operating system

FOXBORO Optimized Real Time Operating System (RTOS)

Control cycle

1 μ s~1s (software continuously adjustable)

Signal processing capability

Maximum 1800 analog signals, 3000 switch signals

Support control algorithms

PID、 Cascade PID, ratio control, logic interlocking, data filtering, etc

communication interface

Gigabit Ethernet x 2, Node Bus redundant interface x 1, RS485 x 2, PROFINET x 1

Supported Protocols

Modbus RTU/TCP,PROFINET,EtherNet/IP,Node Bus,OPC UA,PTP 1588 v2

redundant function

Power redundancy (standard), communication redundancy (standard), module thermal redundancy (optional), switching time ≤ 30ms

power supply

24V DC dual input (± 15%), typical power consumption ≤ 25W, maximum power consumption ≤ 40W

Working environment temperature

-40℃~70℃

relative humidity

5%~95% (no condensation)

Protection level

IP20, Support installation of 19 inch standard cabinets

Dimensions (length x width x height)

200mm × 150mm × 230mm (typical value, subject to actual product)

Anti-interference performance

Electromagnetic shielding effectiveness ≥ 90dB, surge tolerance ± 3kV, electrostatic protection ± 15kV

MTBF

≥ 350000 hours


Applicable scenarios and supporting applications

The P0800DA industrial control module, with its efficient computing capability, flexible redundant configuration, and high cost-effectiveness, is widely used in various medium-sized industrial automation control systems. The core applicable scenarios and supporting equipment include:

1. Downstream equipment in petrochemical industry: equipped with FOXBORO FBM231 analog I/O module and P0400ZG node bus module, used for temperature and pressure control of reaction vessels in chemical intermediate synthesis and oil refining units. Precise control of process parameters is achieved through cascade PID algorithm, and power redundancy configuration ensures continuous production.

2. Production lines in the building materials industry: In cement and glass production lines, FBM232 switch I/O modules and P0400GH power modules are used to achieve control of kiln temperature and slurry flow rate, as well as logical interlocking of conveying equipment, to adapt to high temperature and high dust production environments.

3. Large scale production of food and beverage: equipped with weighing modules and liquid level sensors, used for filling volume control and sterilization temperature adjustment in beverage filling and dairy processing production lines. Through logical interlocking, the production process is automatically connected, supporting full process traceability of production data.

4. Auxiliary control system for medium-sized thermal power plants: Connect sensors and actuators of boiler auxiliary equipment (feed water pump, induced draft fan) to achieve start stop control and operation status monitoring of auxiliary equipment. Communicate with the main control system through PROFINET interface to ensure stable operation of the generator set.

5. Water Treatment and Environmental Protection Engineering: In medium-sized sewage treatment plants and industrial wastewater treatment systems, water quality analysis instruments and pump control modules are equipped to achieve dissolved oxygen control in aeration tanks and automatic adjustment of dosing systems. Data exchange with the upper computer monitoring system is achieved through Modbus protocol.

6. Batch production in the pharmaceutical industry: Combined with batch control modules and sterile sensors, it is used for intermittent production control of pharmaceutical raw materials. Through flexible configuration functions, it can quickly switch between different batch production processes, meeting the strict compliance requirements of the pharmaceutical industry.

  • User name Member Level Quantity Specification Purchase Date
  • Satisfaction :
No evaluation information
  • Honeywell Enhanced Micro TDC 3000X System Redundancy Architecture and Maintenance Guide
  • Selection and Configuration of Bonfiglioli Active Series Inverter
  • Installation, Maintenance, and Troubleshooting Guide for Bonfiglioli HDP/HDO Series Heavy duty Gearboxes
  • Installation, Maintenance, and Troubleshooting Guide for Bonfiglioli 300/300M Series Gearboxes
  • Bonfiglioli 300M planetary gearbox selection and thermal verification guide
  • Bonfiglioli 3/H series heavy-duty gearbox selection and verification guide
  • Bonfiglioli KRG/KCG/KSD Hydraulic Coupling Selection and Integration Guide
  • Bonfiglioli BTD/BCR Servo Motor System Integration and Interface Configuration Guide
  • Bonfiglioli BTD/BCR Synchronous Servo Motor Selection and Interface Configuration Guide
  • Bonfiglioli VF-W series ATEX explosion-proof reducer selection guide
  • Bonfiglioli EM-ENC-03 Expansion Module Configuration and System Bus Integration Guide
  • Bonfiglioli EVOX CP Explosion proof Reducer: Quick Guide for Installation and Maintenance
  • Bonfiglioli C/A/F/S Reducer ATEX Installation and Maintenance Practice Guide
  • Bonfiglioli BXN/MXN Motor Installation and Brake Maintenance Complete Guide
  • Bonfiglioli VF-W IE2/IE3 Worm Gear Reducer: Energy Efficiency Selection and Application Practice Guide
  • Bonfiglioli VF-W Explosion proof Worm Gear Reducer: ATEX Selection and Installation Complete Guide
  • Selection and Calculation of Bonfiglioli RAN Right Angle Gearbox
  • Bonfiglioli Industrial Transmission System Selection Guide
  • Bonfiglioli EVOX Gearmotor Selection and Configuration Guide
  • Bonfiglioli CAFS Reducer Selection and Application Guide
  • Bonfiglioli C-A-F gearbox selection and maintenance
  • Bonfiglioli C Series ATEX Explosion proof Reducer Selection
  • Bonfiglioli BN-BE-BX Series Motor Selection Guide
  • Bonfiglioli BMD Servo Motor Selection and Configuration Guide
  • Selection of Bonfiglioli A-series servo reducer
  • Bonfiglioli AS Series Reducer Installation and Maintenance Guide
  • Bonfiglioli Active 401/201 Inverter Selection and Application Guide
  • Bonfiglioli EM-IO-04 Expansion Module Configuration Guide
  • Bonfiglioli EM-ENC-02 Expansion Module Engineering Configuration Guide
  • Bonfiglioli A-series gearbox selection and maintenance
  • Bonfiglioli Transmission and Automation Product Selection Reference
  • Bonfiglioli RAN series bevel gearbox selection and maintenance guide
  • Bonfiglioli ACTION 401/201 Inverter Engineering Integration Guide
  • Alcatel Lucent Stellar AP1301 Deployment and Performance Optimization
  • Alcatel Lucent ALE Wireless Handheld System Selection and Deployment Guide
  • In depth analysis of Alcatel Lucent MDR-8000 microwave system engineering technology
  • Alcatel 1660SM Multi Service Node Operations and Troubleshooting
  • Alcatel Lucent OmniSwitch 6850 Stacking and Security Configuration Guide
  • Alcatel Lucent 7750 SR Router High Availability Deployment and Troubleshooting
  • Alcatel 1600 Series SDH Equipment Operation and Maintenance Guide
  • Alcatel Lucent 9500 MPR Microwave Platform Deployment and Troubleshooting
  • Alcatel Lucent 7450 ESS High Availability Deployment and Operations Guide
  • Alcatel OmniPCX 4400 REFLEXES Phone Configuration Troubleshooting
  • Alcatel Lucent OmniSwitch 6850E Stacking Operations and Troubleshooting
  • Alcatel Lucent OmniSwitch 6450 Stacking and Troubleshooting Guide
  • Lucent Stinger DSLAM High Availability Deployment and Fault Recovery Complete Guide
  • Alcatel Lucent 1660SM Optical Transmission System Architecture and Business Bearer
  • ALCATEL-LUCENT 9500 MPR Microwave Packet Wireless System Performance
  • Atlas Copco MT Focus 6000 Controller Safety Specification and Electrical Grounding
  • Atlas Copco Power MACS 4000 Automated Tightening System Performance
  • Design and Protection of Constant Torque Application for Atlas Copco Neos Inverter
  • Atlas Copco Power Focus 8 Family Selection Configuration and Virtual Station Function Complete Explanation
  • Atlas Copco Power Focus 4000 Controller Safety Deployment and Electrical Grounding Specification
  • Atlas Copco Power Focus 3000 Controller Installation, Debugging, and Troubleshooting Guide
  • Atlas Copco Tensor S Tightening Tool Troubleshooting Guide
  • Application and maintenance of Atlas Copco SRTT-B torque sensor
  • Atlas Copco ACTA 4000 Torque Analyzer Operation and Calibration Guide
  • Atlas Copco Tensor STB Wireless Tightening Tool Deployment Guide
  • Atlas Copco Power Focus 4000 Configuration and Troubleshooting Manual
  • Atlas Copco Power Focus 6000 and Tensor STR System
  • Energy efficiency and selection of Atlas Copco ZR/ZT oil-free screw compressor
  • Atlas Copco PowerMACS 4000 Tightening Control System
  • Atlas Copco Elektronikon MK5 Controller Operation Guide
  • Atlas Copco Tensor ES and PF600 Tightening System
  • ADLINK STC2-AL/KL Industrial Control Tablet BIOS and Drivers
  • ADLINK STC-15W04 industrial tablet computer
  • ADLINK SP2-EHL Fanless Tablet Selection and Configuration Guide
  • ADLINK PXIS-2719A Chassis Deployment Monitoring Guide
  • ADLINK PXIe-9908 SMU Deployment and Configuration Guide
  • ADLINK PXIe-9852 High Speed Digitizer Configuration Guide
  • ADLINK PXIe-9848 High Speed Digitizer Configuration Guide
  • ADLINK PXIe-9834 High Speed Digitizer Configuration Guide
  • ADLINK PXIe-9529H Dynamic Signal Acquisition Configuration Guide
  • ADLINK PXIe-3988 Xeon Deployment Optimization Guide
  • ADLINK PXIe-3987/3977/3937 Deployment and Debugging
  • ADLINK PXIe-3987 Installation and Configuration Programming Guide
  • ADLINK-PXIe-3988-3987-3977-3937-TL Controller Deployment and Maintenance Guide
  • ADLINK PXI-2020/2022 Synchronous Acquisition Card Configuration and Synchronization Guide
  • ADLINK DAQ/PXI-2000 series synchronous acquisition card configuration and triggering
  • ADLINK PXES-2788 series chassis deployment and maintenance
  • ADLINK PXES-2785 18 Slot Gen3 Chassis Deployment and Maintenance Guide
  • ADLINK PXES-2780 18 Slot PXIe Chassis Deployment Configuration
  • ADLINK PXES-2596 Gen3 Chassis Installation and Maintenance Guide
  • ADLINK PXES-2590 Chassis Deployment and System Management
  • ADLINK PXES-2314T Chassis Deployment and Troubleshooting Guide
  • ADLINK PXES-2301 Chassis Installation Monitoring and Troubleshooting
  • ADLINK PCIe-U300 Series USB3 Vision Acquisition Card Deployment Guide
  • ADLINK PCIe PXIe-8565 Expansion Kit Remote Control and Compatibility
  • Installation and troubleshooting of ADLINK PCIe GIE74V four channel PoE acquisition card
  • ADLINK PCIe GIE7x Poe+Acquisition Card Configuration and Triggering Troubleshooting
  • Advanced triggering and multi card synchronization of ADLINK PCIe-CPL64V image acquisition card
  • ADLINK PCIe-CPL64 Image Acquisition Card Hardware Trigger and Encoder Application
  • Application and troubleshooting of ADLINK PCIe-8560/PXI-8565 expansion kit
  • ADLINK PCIe 8332/PCIe 8334/PCIe 8338 EtherCAT Motion Controller Multi axis Synchronous Control
  • ADLINK PCIe-7432 32 channel isolated I/O card interrupt and driver
  • ADLINK PCIe-7256 Industrial I/O Card Interruption and Relay
  • ADLINK PCIe-833x EtherCAT Motion Controller Debugging and Maintenance
  • ADLINK PCIe-10GPoE 10GigE Visual Acquisition Card Practical Use
  • ADLINK PCI-8254/8258 Motion Controller Debugging and Maintenance
  • Application and Maintenance of ADLINK PCI-8158 Multi axis Motion Control Card
  • ADLINK PCI-8134A Maintenance and Troubleshooting Guide
  • ADLINK PCI-7250 Series Relay Output Card Configuration and Protection Circuit Guide
  • ADLINK PCI-6308 Series Isolated Analog Output Card Configuration and Programming
  • ADLINK PanKonix Series HMI Panel Selection and Deployment Guide
  • ADLINK NuDAM-6100 Series I/O Module Deployment and Protocol Optimization
  • Deployment and Calibration of ADLINK NuDAM-6000 Data Acquisition Module
  • ADLINK NEON-2000-Ono Intelligent Camera Deployment and Trigger Optimization
  • ADLINK NuDAM-65xx Communication Module Networking and Configuration Guide
  • ADLINK NuDAM-60xx Series Digital I/O Module Deployment and Watchdog Optimization
  • ADLINK MXE-5300 Fanless Industrial Control Computer Deployment and Troubleshooting Manual
  • ADLINK MXE-310 edge computing Platform Hardware Installation and BIOS Tuning
  • ADLINK MXE-230 series Alder Lake platform industrial computer deployment and maintenance manual
  • ADLINK MXE-210 Compact Fanless Industrial Control Computer Hardware Deployment and Debugging Guide
  • ADLINK MXC-3300/3340 Embedded Industrial Control Computer Hardware Integration and Debugging Manual
  • ADLINK MXA-312M Edge AI Platform Hardware Integration and Debugging Guide
  • ADLINK MXA-200 IoT Gateway Hardware Installation and Linux System Debugging Complete Guide
  • ADLINK MVP-6200 Industrial Control Computer: PCIe Gen4 and PCI Hybrid Expansion
  • ADLINK MVP-6100 Industrial Control Computer: PCI/PCIe Expansion and Robust Design
  • ADLINK MVP-5200 Industrial Control Computer: High Performance Multi Display and TSN Network
  • ADLINK MVP-5100 Fanless Industrial Control Computer Deployment and Development Guide
  • ADLINK MVP-3100 and MVP-3120 Embedded Systems
  • ADLINK MNET-J3/S23/MIA/DA2/SAN Single Axis Module Installation and Wiring Guide
  • ADLINK MNET-4XMO/C Motion Module Installation and Debugging Guide
  • ADLINK MCM-216/218 Edge DAQ Deployment Configuration Guide
  • ADLINK LPCIe-8124-C Encoder Card Trigger Configuration Guide
  • ADLINK IM/OM Series Industrial Display Installation and Debugging Guide
  • ADLINK GW-01 Industrial IoT Gateway Configuration and Debugging Guide
  • EURESYS Grablink Collection Card Selection and Trigger Configuration Guide